source: Sophya/trunk/SophyaExt/FitsIOServer/fitstarray.cc@ 863

#include "machdefs.h"
#include "pexceptions.h" 
#include "fitstarray.h" 
///////////////////////////////////////////////////////////
//   Les objets delegues pour la gestion de persistance sur fichiers fits 
//    pout TArray
///////////////////////////////////////////////////////////

using namespace SOPHYA;

template <class T>
FITS_TArray<T>::FITS_TArray()
{
  dobj_=new TArray<T>;
  ownobj=true;
}

template <class T>
FITS_TArray<T>::FITS_TArray(char inputfile[],int hdunum)
{
  dobj_=new TArray<T>;
  ownobj=true; 
  ReadF(inputfile,hdunum);
}

template <class T>
FITS_TArray<T>::FITS_TArray(const TArray<T> & obj) 
{ 
  dobj_ = new TArray<T>(obj);
  ownobj=true; 
}

template <class T>
FITS_TArray<T>::FITS_TArray(TArray<T> *obj) 
{ 
  dobj_ = obj;
  ownobj=false; 
}


template <class T>
FITS_TArray<T>::~FITS_TArray()
{
  if (ownobj && dobj_) delete dobj_;
}

template <class T>
void FITS_TArray<T>::Write(char outputfile[])
{
  WriteF(outputfile);
}



template <class T>
AnyDataObj* FITS_TArray<T>::DataObj()
{
  return(dobj_);
}

template <class T>
void FITS_TArray<T>::ReadFromFits(const FitsFile& fn)
{

  if (!fn.IsFitsImage())
    {
      throw PException("ReadFromFits: the fits file seems not to be an image");
    }
  int dimension = fn.nbDimOfImage();
  cout << " dimension de l'image a lire: " << dimension << endl;
   
  uint_4* siz = new uint_4[dimension];
  for (int k=0; k< dimension; k++) siz[k] = fn.dimOfImageAxes()[k];
  if(dobj_ == NULL)
    dobj_ = new TArray<T>(dimension,siz);
  else
    dobj_->ReSize(dimension,siz);
  
  delete [] siz;
  if (dobj_->Size() != fn.nbOfImageData() )
  {
    cout << " total size of TArray: " << dobj_->Size() << endl;
    cout << " total size from fits file: " << fn.nbOfImageData() << endl;
      throw PException("ReadFromFits: size conflict");
  }
  // On lit le tableau
  fn.GetSingleColumn( dobj_->Data(),dobj_->Size());

}


  template <class T>
void FITS_TArray<T>::WriteToFits(const FitsFile& fn)  
{
  if(dobj_ == NULL) return;
  uint_4 nbdim = dobj_->NbDimensions();
  if ( nbdim == 0) 
    {
      throw PException(" FITS_TARRAY: number of dimensions of the array = 0?");
    }
  cout << "FITS_TARRAY: nombrede dimension du tableau a ecrire: " << nbdim << endl;
  int* naxisn = new int[nbdim];
  for (int k=0; k< nbdim; k++)
    {
      naxisn[k] = dobj_->Size(k);
      cout << " taille de la dimension " << k << " : " << naxisn[k] << endl;
    }
  char type;
  if (strncmp( typeid(T).name(),"r_8",3)==0 || strncmp( typeid(T).name(),"double",6)==0 ) type='D';
  else 
    if (strncmp( typeid(T).name(),"r_4",3)==0 || strncmp( typeid(T).name(),"float",5)==0 )  type='E';
    else
      if (strncmp( typeid(T).name(),"int_4",5)==0 || strncmp( typeid(T).name(),"int",3)==0 )  type='I';
      else
        {
          cout <<  " type du tableau= " <<  typeid(T).name() << endl;
          throw IOExc("FITS_TArray:: unknown type");
        }

  int nbels = 1;
  for (int k=0; k< nbdim; k++) 
    {
      if (naxisn[k] > 0) nbels *= naxisn[k];
    }
  cout << " nombre total d'elements a copier " << nbels << endl;
  fn.makeHeaderImageOnFits(type, nbdim, naxisn);
  if (!dobj_->IsPacked()) 
    {
      cout << " IsPacked() = " << dobj_->IsPacked() << endl;
      throw PException(" FITS_TARRAY: this case is not yet programmed");
      
    }
  if (dobj_->MinStep() != 1) 
    {
      cout << " MinStep()) = " << dobj_->MinStep() << endl;
      throw PException(" FITS_TARRAY: this case is not yet programmed");
      
    }
  fn.putImageToFits(nbels, dobj_->Data());
  
  delete [] naxisn;
}


#ifdef __CXX_PRAGMA_TEMPLATES__
#pragma define_template FITS_TArray<r_8>
#pragma define_template FITS_TArray<r_4>
#endif
#if defined(ANSI_TEMPLATES) || defined(GNU_TEMPLATES)
template class FITS_TArray<r_8>;
template class FITS_TArray<r_4>;
#endif